Abstract: A broken conductor detection method and apparatus are disclosed. In one embodiment, the apparatus includes a measurement module to measure, at a node of a distribution system, a voltage value of each distribution feeder of the distribution system; a check module to check whether the measured voltage value of each distribution feeder is less than a voltage threshold used for the distribution feeder, the voltage threshold used for the distribution feeder being calculated based on a mean value of measured voltage values of other distribution feeders in the distribution system; a generating module to, upon a checking result indicating that a measured voltage value of a distribution feeder of the distribution system is less than the voltage threshold used for the distribution feeder, generate a signal indicating that the distribution feeder of the distribution system has a broken conductor; and a sending module to send the generated signal.

Abstract: A broken conductor detection method and apparatus are disclosed. In one embodiment, the apparatus includes a measurement module to measure, at a node of a distribution system, a voltage value of each distribution feeder of the distribution system; a check module to check whether the measured voltage value of each distribution feeder is less than a voltage threshold used for the distribution feeder, the voltage threshold used for the distribution feeder being calculated based on a mean value of measured voltage values of other distribution feeders in the distribution system; a generating module to, upon a checking result indicating that a measured voltage value of a distribution feeder of the distribution system is less than the voltage threshold used for the distribution feeder, generate a signal indicating that the distribution feeder of the distribution system has a broken conductor; and a sending module to send the generated signal.

Abstract: A mounting system is provided. Such a system includes at least one “C” channel adapted to be mounted to a surface, and a mountable accessory device. An intermediary mounting member is disposed between the at least one “C” channel and the accessory device, and the intermediary mounting member has the accessory device mounted thereto. At least two mounting arrangements are also included, wherein each mounting arrangement is engaged between one of the at least one “C” channel and the intermediary mounting member, and wherein the mounting arrangements are disposed in spaced-apart relation along the at least one “C” channel. An associated apparatus is also provided.

Abstract: A mounting system is provided. Such a system includes at least one “C” channel adapted to be mounted to a surface, and a mountable accessory device. An intermediary mounting member is disposed between the at least one “C” channel and the accessory device, and the intermediary mounting member has the accessory device mounted thereto. At least two mounting arrangements are also included, wherein each mounting arrangement is engaged between one of the at least one “C” channel and the intermediary mounting member, and wherein the mounting arrangements are disposed in spaced-apart relation along the at least one “C” channel. An associated apparatus is also provided.

Abstract: Balanced load points and permissive close switch determinations may be made using a decentralized peer-to-peer methodology for a distribution feeder that includes switches and line sections between adjacent switches, each switch being a switching point of the distribution feeder. In particular, a balanced load point may be determined by determining a first load at a first switch and a second load at a second switch coupled to the first switch via a first line section, communicating the first load and a first load budget from the first switch to the second switch, determining a third load on the first line section based on the first load and the second load, and determining a second load budget at the second switch based on the first load budget and the third load, all substantially in real time.

Abstract: A method and system for programming and implementing automated fault isolation and restoration of high-speed fault detection of circuits in power distribution networks using sequential logic and peer-to-peer communication is provided. High-speed fault detection of circuits in power distribution networks uses protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems with sequential logic.

Abstract: A power distribution feeder system includes a plurality of power sources, a plurality of switching components coupled to the power sources by a plurality of line sections, and an IED coupled to each switching component and configured to monitor any line section coupled to the switching component, each IED containing protection logic configured to detect a jump in current on a faulted line section, communicate the jump in current to other IEDs coupled to the faulted line section, receive information from the other IEDs coupled to the faulted line section regarding any jump in current detected by the other IEDs, employ the received information from the other IEDs to confirm a fault in the faulted line section, and issue a trip command to isolate the faulted line section based on the current jump detected by the IED and current jump information received from other IEDs coupled to the line section.

Abstract: A method and system for programming and implementing automated fault isolation and restoration of high-speed fault detection of circuits in power distribution networks using sequential logic and peer-to-peer communication is provided. High-speed fault detection of circuits in power distribution networks uses protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems with sequential logic.

Abstract: A method and apparatus for high-speed fault detection of circuits in power distribution networks utilizing protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems.

Abstract: A method and system for programming and implementing automated fault isolation and restoration of high-speed fault detection of circuits in power distribution networks using sequential logic and peer-to-peer communication is provided. High-speed fault detection of circuits in power distribution networks uses protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems with sequential logic.

Abstract: A power distribution feeder system includes a plurality of power sources, a plurality of switching components coupled to the power sources by a plurality of line sections, and an IED coupled to each switching component and configured to monitor any line section coupled to the switching component, each IED containing protection logic configured to detect a jump in current on a faulted line section, communicate the jump in current to other IEDs coupled to the faulted line section, receive information from the other IEDs coupled to the faulted line section regarding any jump in current detected by the other IEDs, employ the received information from the other IEDs to confirm a fault in the faulted line section, and issue a trip command to isolate the faulted line section based on the current jump detected by the IED and current jump information received from other IEDs coupled to the line section.

Abstract: A method and system for programming and implementing automated fault isolation and restoration of high-speed fault detection of circuits in power distribution networks using sequential logic and peer-to-peer communication is provided. High-speed fault detection of circuits in power distribution networks uses protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems with sequential logic.

Abstract: A method and apparatus for high-speed fault detection of circuits in power distribution networks utilizing protective relay devices (14) segmenting a distribution line (11) having Intelligent Electronic Devices (IED) (22) associated with switching devices (20) communicating peer-to-peer via a communication system (30) to provide fast and accurate fault location information in distribution systems.